Asset Details
MbrlCatalogueTitleDetail
Do you wish to reserve the book?
A Multifactor Eigenvector Spatial Filtering-Based Method for Resolution-Enhanced Snow Water Equivalent Estimation in the Western United States
by
Chen, Yumin
, Yang, Jiaxin
, Su, Heng
, Xu, Rui
, Chen, Yuejun
, Wilson, John P.
in
Algorithms
/ Aquatic resources
/ autocorrelation
/ Brightness temperature
/ Climate change
/ Comparative analysis
/ Correlation coefficient
/ Correlation coefficients
/ Data assimilation
/ Data collection
/ Datasets
/ Distribution
/ eigenvector spatial filtering
/ Eigenvectors
/ Environmental aspects
/ Environmental monitoring
/ Equivalence
/ Estimates
/ Grain size
/ Hydrologic cycle
/ Hydrology
/ Measurement
/ Mountains
/ passive microwave brightness temperature
/ Precipitation
/ Radiation
/ Regression analysis
/ Remote sensing
/ resolution-enhanced
/ Snow
/ snow water equivalent estimation
/ Snow-water equivalent
/ Spatial discrimination
/ Spatial filtering
/ Spatial resolution
/ Statistical models
/ Temperature
/ Topography
/ United States
/ Variables
/ Water management
/ Water resources
/ Water resources management
/ western United States
2023
Hey, we have placed the reservation for you!
By the way, why not check out events that you can attend while you pick your title.
You are currently in the queue to collect this book. You will be notified once it is your turn to collect the book.
Oops! Something went wrong.
Looks like we were not able to place the reservation. Kindly try again later.
Are you sure you want to remove the book from the shelf?
A Multifactor Eigenvector Spatial Filtering-Based Method for Resolution-Enhanced Snow Water Equivalent Estimation in the Western United States
by
Chen, Yumin
, Yang, Jiaxin
, Su, Heng
, Xu, Rui
, Chen, Yuejun
, Wilson, John P.
in
Algorithms
/ Aquatic resources
/ autocorrelation
/ Brightness temperature
/ Climate change
/ Comparative analysis
/ Correlation coefficient
/ Correlation coefficients
/ Data assimilation
/ Data collection
/ Datasets
/ Distribution
/ eigenvector spatial filtering
/ Eigenvectors
/ Environmental aspects
/ Environmental monitoring
/ Equivalence
/ Estimates
/ Grain size
/ Hydrologic cycle
/ Hydrology
/ Measurement
/ Mountains
/ passive microwave brightness temperature
/ Precipitation
/ Radiation
/ Regression analysis
/ Remote sensing
/ resolution-enhanced
/ Snow
/ snow water equivalent estimation
/ Snow-water equivalent
/ Spatial discrimination
/ Spatial filtering
/ Spatial resolution
/ Statistical models
/ Temperature
/ Topography
/ United States
/ Variables
/ Water management
/ Water resources
/ Water resources management
/ western United States
2023
Oops! Something went wrong.
While trying to remove the title from your shelf something went wrong :( Kindly try again later!
Do you wish to request the book?
A Multifactor Eigenvector Spatial Filtering-Based Method for Resolution-Enhanced Snow Water Equivalent Estimation in the Western United States
by
Chen, Yumin
, Yang, Jiaxin
, Su, Heng
, Xu, Rui
, Chen, Yuejun
, Wilson, John P.
in
Algorithms
/ Aquatic resources
/ autocorrelation
/ Brightness temperature
/ Climate change
/ Comparative analysis
/ Correlation coefficient
/ Correlation coefficients
/ Data assimilation
/ Data collection
/ Datasets
/ Distribution
/ eigenvector spatial filtering
/ Eigenvectors
/ Environmental aspects
/ Environmental monitoring
/ Equivalence
/ Estimates
/ Grain size
/ Hydrologic cycle
/ Hydrology
/ Measurement
/ Mountains
/ passive microwave brightness temperature
/ Precipitation
/ Radiation
/ Regression analysis
/ Remote sensing
/ resolution-enhanced
/ Snow
/ snow water equivalent estimation
/ Snow-water equivalent
/ Spatial discrimination
/ Spatial filtering
/ Spatial resolution
/ Statistical models
/ Temperature
/ Topography
/ United States
/ Variables
/ Water management
/ Water resources
/ Water resources management
/ western United States
2023
Please be aware that the book you have requested cannot be checked out. If you would like to checkout this book, you can reserve another copy
We have requested the book for you!
Your request is successful and it will be processed during the Library working hours. Please check the status of your request in My Requests.
Oops! Something went wrong.
Looks like we were not able to place your request. Kindly try again later.
A Multifactor Eigenvector Spatial Filtering-Based Method for Resolution-Enhanced Snow Water Equivalent Estimation in the Western United States
Journal Article
A Multifactor Eigenvector Spatial Filtering-Based Method for Resolution-Enhanced Snow Water Equivalent Estimation in the Western United States
2023
Request Book From Autostore
and Choose the Collection Method
Overview
Accurate snow water equivalent (SWE) products are vital for monitoring hydrological processes and managing water resources effectively. However, the coarse spatial resolution (typically at 25 km from passive microwave remote sensing images) of the existing SWE products cannot meet the needs of explicit hydrological modeling. Linear regression ignores the spatial autocorrelation (SA) in the variables, and the measure of SA in the data assimilation algorithm is not explicit. This study develops a Resolution-enhanced Multifactor Eigenvector Spatial Filtering (RM-ESF) method to estimate daily SWE in the western United States based on a 6.25 km enhanced-resolution passive microwave record. The RM-ESF method is based on a brightness temperature gradience algorithm, incorporating not only factors including geolocation, environmental, topographical, and snow features but also eigenvectors generated from a spatial weights matrix to take SA into account. The results indicate that the SWE estimation from the RM-ESF method obviously outperforms other SWE products given its overall highest correlation coefficient (0.72) and lowest RMSE (56.70 mm) and MAE (43.88 mm), compared with the AMSR2 (0.33, 131.38 mm, and 115.45 mm), GlobSnow3 (0.50, 100.03 mm, and 83.58 mm), NCA-LDAS (0.48, 98.80 mm, and 81.94 mm), and ERA5 (0.65, 67.33 mm, and 51.82 mm), respectively. The RM-ESF model considers SA effectively and estimates SWE at a resolution of 6.25 km, which provides a feasible and efficient approach for SWE estimation with higher precision and finer spatial resolution.
Publisher
MDPI AG
This website uses cookies to ensure you get the best experience on our website.